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We are analyzing https://www.nature.com/articles/s41467-018-02906-9.

Title:
Control of cell morphology and differentiation by substrates with independently tunable elasticity and viscous dissipation | Nature Communications
Description:
The mechanical properties of extracellular matrices can control the function of cells. Studies of cellular responses to biomimetic soft materials have been largely restricted to hydrogels and elastomers that have stiffness values independent of time and extent of deformation, so the substrate stiffness can be unambiguously related to its effect on cells. Real tissues, however, often have loss moduli that are 10 to 20% of their elastic moduli and behave as viscoelastic solids. The response of cells to a time-dependent viscous loss is largely uncharacterized because appropriate viscoelastic materials are lacking for quantitative studies. Here we report the synthesis of soft viscoelastic solids in which the elastic and viscous moduli can be independently tuned to produce gels with viscoelastic properties that closely resemble those of soft tissues. Systematic alteration of the hydrogel viscosity demonstrates the time dependence of cellular mechanosensing and the influence of viscous dissipation on cell phenotype. Purely elastic biomimetic soft materials are used to characterize the mechanical response of cells, but do not resemble real tissues. Here the authors develop a viscoelastic solid hydrogel, based on polyacrylamide, that can be tuned to closely resemble soft tissue, and show the influence of viscous dissipation on cellular mechanical sensing.
Website Age:
30 years and 10 months (reg. 1994-08-11).

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Keywords {🔍}

cells, gels, paa, cell, viscoelastic, linear, elastic, gel, collagen, adhesion, article, network, pubmed, google, scholar, viscous, fig, substrate, crosslinked, fibronectin, size, stress, cas, sulfosanpah, proteins, nhs, paxillin, nature, stiffness, presenting, differentiation, frequency, dissipation, viscosity, modulus, force, properties, spreading, tissues, surface, fibroblasts, focal, function, data, polyacrylamide, molecules, average, actin, time, scale,

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nature portfolio research privacy policy advertising chemical nature semi-dilute polymer solutions nature reprints α-smooth muscle actin development infinitely dilute solutions alpha-smooth muscle actin linear paa solutions rho-stimulated contractility drives author information authors n-cadherin-dependent mechanosensing visible light-responsive hydrogels full size image cell–matrix contacts transducing establishing cell–matrix contacts central nervous system 1 mg/ml anti-collagen permissions author correspondence original author 1 mg/ml human fibronectin cell-substrate interface due middle dynamic light scattering social media references engler bis-acrylamide enables activation collagen i-coated gels statistically significant difference statistically significant difference time-dependent mechanical properties viscoplastic media cell-substrate adhesion sites regulate cell proliferation drive disease progression time-dependent viscous loss extracellular matrix stiffness privacy permanent matrix elasticity mesenchymal stem cells hepatic stellate cells36 biologically active molecules biomimetic soft materials anti-collagen antibodies molecular interactions implicated

Schema {🗺️}

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         headline:Control of cell morphology and differentiation by substrates with independently tunable elasticity and viscous dissipation
         description:The mechanical properties of extracellular matrices can control the function of cells. Studies of cellular responses to biomimetic soft materials have been largely restricted to hydrogels and elastomers that have stiffness values independent of time and extent of deformation, so the substrate stiffness can be unambiguously related to its effect on cells. Real tissues, however, often have loss moduli that are 10 to 20% of their elastic moduli and behave as viscoelastic solids. The response of cells to a time-dependent viscous loss is largely uncharacterized because appropriate viscoelastic materials are lacking for quantitative studies. Here we report the synthesis of soft viscoelastic solids in which the elastic and viscous moduli can be independently tuned to produce gels with viscoelastic properties that closely resemble those of soft tissues. Systematic alteration of the hydrogel viscosity demonstrates the time dependence of cellular mechanosensing and the influence of viscous dissipation on cell phenotype. Purely elastic biomimetic soft materials are used to characterize the mechanical response of cells, but do not resemble real tissues. Here the authors develop a viscoelastic solid hydrogel, based on polyacrylamide, that can be tuned to closely resemble soft tissue, and show the influence of viscous dissipation on cellular mechanical sensing.
         datePublished:2018-01-31T00:00:00Z
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      headline:Control of cell morphology and differentiation by substrates with independently tunable elasticity and viscous dissipation
      description:The mechanical properties of extracellular matrices can control the function of cells. Studies of cellular responses to biomimetic soft materials have been largely restricted to hydrogels and elastomers that have stiffness values independent of time and extent of deformation, so the substrate stiffness can be unambiguously related to its effect on cells. Real tissues, however, often have loss moduli that are 10 to 20% of their elastic moduli and behave as viscoelastic solids. The response of cells to a time-dependent viscous loss is largely uncharacterized because appropriate viscoelastic materials are lacking for quantitative studies. Here we report the synthesis of soft viscoelastic solids in which the elastic and viscous moduli can be independently tuned to produce gels with viscoelastic properties that closely resemble those of soft tissues. Systematic alteration of the hydrogel viscosity demonstrates the time dependence of cellular mechanosensing and the influence of viscous dissipation on cell phenotype. Purely elastic biomimetic soft materials are used to characterize the mechanical response of cells, but do not resemble real tissues. Here the authors develop a viscoelastic solid hydrogel, based on polyacrylamide, that can be tuned to closely resemble soft tissue, and show the influence of viscous dissipation on cellular mechanical sensing.
      datePublished:2018-01-31T00:00:00Z
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         Bioinspired materials
         Extracellular matrix
         Focal adhesion
         Science
         Humanities and Social Sciences
         multidisciplinary
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      name:Division of Gastroenterology, Department of Medicine, Perelman School of Medicine, University of Pennsylvania, Philadelphia, USA
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